e use of computational parametric design is known as algorithm-aided design. While designers generally rely on intuition and expertise to solve design challenges, computational design aims to enhance this process by codifying design decisions using computer language. In this study, a useful tool that considers the structural aspects of a rectangular cross section of beam element was proposed. e process was conducted using the algorithm-aided design tool Grasshopper soware. It involved determining a variable cross section of beam by facilitating the design phase. e proposed methodology can be particularly useful for practical applications, where numerous drawings have to be covered. In this scenario, the several cross sections generated by the soware can alter various numbers of steel bars, ties and hoops. For upcoming CAD design proposals, it is suggested this procedure for automatically processing the results: extracting a wireframe and producing cross sections. ree-dimensional nite elements now support the cross-section extraction. e skeletonization and vowelization of a nite element- and density-based topology optimization form the basis of the wireframe extraction. e geometrical parameters of each selected beam prole are then established utilizing at least square loss optimization and shape averaging based on image processing. Finally, a model that may be transformed into a parametric CAD model is accessible for use in future design work.
A Preliminary Investigation into a Variable Section Being Algorithm-Aided Design as a Way to Facilitate the Structural Design Process. Drafting Automation.
Albi ALLIAJ
Co-primo
;Flogerta Krosi
Co-primo
2023
Abstract
e use of computational parametric design is known as algorithm-aided design. While designers generally rely on intuition and expertise to solve design challenges, computational design aims to enhance this process by codifying design decisions using computer language. In this study, a useful tool that considers the structural aspects of a rectangular cross section of beam element was proposed. e process was conducted using the algorithm-aided design tool Grasshopper soware. It involved determining a variable cross section of beam by facilitating the design phase. e proposed methodology can be particularly useful for practical applications, where numerous drawings have to be covered. In this scenario, the several cross sections generated by the soware can alter various numbers of steel bars, ties and hoops. For upcoming CAD design proposals, it is suggested this procedure for automatically processing the results: extracting a wireframe and producing cross sections. ree-dimensional nite elements now support the cross-section extraction. e skeletonization and vowelization of a nite element- and density-based topology optimization form the basis of the wireframe extraction. e geometrical parameters of each selected beam prole are then established utilizing at least square loss optimization and shape averaging based on image processing. Finally, a model that may be transformed into a parametric CAD model is accessible for use in future design work.I documenti in SFERA sono protetti da copyright e tutti i diritti sono riservati, salvo diversa indicazione.